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Updated: Mar 17, 2026

Integration of 5G Experimentation Infrastructures into a Multi-Site NFV Ecosystem
Published on: February 3, 2021
Osman Ratib1,2, Nicolas Roduit3, Dechen Nidup4
1University Hospital of Geneva, Geneve, Switzerland. osman.ratib@hcuge.ch.
This article describes the creation and deployment of a budget-friendly, open-source medical imaging management system designed for hospitals in developing nations. By integrating existing software on standard hardware, the authors successfully provided a major Bhutanese hospital with the tools needed to store, view, and share diagnostic images across clinical departments.
Area of Science:
Background:
Many healthcare facilities in developing nations face significant challenges regarding the digital management of diagnostic medical imagery. These institutions often acquire advanced scanning hardware but lack the underlying digital infrastructure to archive or distribute patient data effectively. This technological gap prevents clinicians from accessing essential visual information during routine patient care. Prior research has shown that proprietary commercial systems are frequently too expensive for resource-limited environments. That uncertainty drove the need for alternative, budget-conscious strategies that utilize freely available software components. No prior work had resolved how to integrate these disparate tools into a stable, hospital-wide network. This project addresses the requirement for reliable digital archiving solutions that operate on standard, affordable computing equipment. The authors propose that utilizing open-source platforms can bridge the divide between modern diagnostic capabilities and existing informatics limitations.
Purpose Of The Study:
The aim of this project was to design and implement a cost-effective imaging management infrastructure for radiology centers in emerging countries. The authors sought to address the lack of informatics support in hospitals already equipped with advanced diagnostic modalities. They specifically targeted the need for reliable image archiving and interpretation capabilities in resource-limited environments. This study was motivated by the high costs associated with proprietary commercial systems that often prevent widespread adoption. The researchers intended to create a robust, versatile system using freely available software platforms. They also aimed to ensure that the solution could run on standard, off-the-shelf hardware to keep expenses low. Furthermore, the team planned to provide comprehensive onsite training to guarantee that local staff could maintain the system independently. This initiative serves as a practical demonstration of how open-source technology can improve diagnostic efficiency in underserved regions.
Main Methods:
The review approach involved designing a comprehensive imaging management infrastructure tailored for a major hospital in Bhutan. Researchers selected multiple open-source software platforms to build a versatile archiving and communication network. They deployed this entire system using standard, commercially available computing hardware rather than specialized proprietary devices. The team performed the installation over a concise three-day period to minimize operational disruption. Onsite training sessions were conducted to ensure that both technical staff and radiologists achieved full system mastery. This approach prioritized local ownership and long-term sustainability of the new digital environment. The investigators integrated a certified software version to manage the high-resolution data generated by CT, MRI, and ultrasound units. Finally, they established a web-based viewing portal to facilitate image access across various hospital wards.
Main Results:
Key findings from the literature indicate that the implemented architecture successfully bridged the gap in digital imaging management for the hospital. The system allowed for the efficient archiving and interpretation of studies from multiple modalities including CT and MRI. Radiologists reported a significant improvement in their daily workflow and diagnostic task performance following the deployment. The installation process was completed in just three days, demonstrating the rapid feasibility of this approach. Staff members acquired the necessary skills to manage the infrastructure independently through the provided onsite training. Images became readily available to clinical units via standard desktop computers using the new web-based viewer. This project confirms that open-source platforms provide a functional and cost-effective alternative to traditional commercial systems. The results highlight that digital modalities require such integrated informatics support to function effectively in clinical settings.
Conclusions:
The authors propose that open-source informatics platforms offer a viable, budget-friendly alternative to expensive commercial imaging systems. Their synthesis suggests that a robust, flexible architecture can successfully meet the needs of hospitals in emerging nations. The implementation demonstrates that standard hardware is sufficient to support complex diagnostic workflows when paired with appropriate software. This project confirms that local teams can quickly gain full ownership of these digital systems through targeted onsite training. The findings imply that such infrastructures significantly improve the efficiency of diagnostic tasks for medical staff. Furthermore, the availability of web-based viewers allows for broader image access across various clinical departments. The authors conclude that digital modalities require integrated management systems to reach their full potential in patient care. These results provide a scalable model for other resource-constrained environments seeking to modernize their radiology services.
The researchers propose an architecture combining multiple open-source platforms on standard hardware. This setup enables image archiving, interpretation on diagnostic workstations, and web-based distribution to clinical wards, replacing the previous lack of digital infrastructure.
The system utilizes a web-based viewer to allow clinicians to access patient scans on standard desktop computers. This component ensures that diagnostic information reaches hospital wards without requiring specialized hardware at every viewing location.
The authors state that standard off-the-shelf hardware is necessary to maintain the cost-effectiveness of the architecture. This approach avoids the high expenses associated with proprietary, vendor-specific computing equipment typically found in commercial systems.
The project integrates a Food and Drug Administration-certified version of a popular open-source software suite. This specific data handling component ensures that the archiving and communication system meets established safety and performance standards for medical use.
The authors measured the success of the installation by the speed of staff adaptation and workflow improvements. Radiologists were able to interpret studies efficiently within three days of the initial deployment and training phase.
The researchers propose that this model provides a scalable solution for other hospitals in emerging countries. They claim that such architectures are essential for institutions equipped with digital modalities that currently lack proper informatics support.